Course 030 PCB Filters and Multiplexers using Standard SMT Components

Mr. Daniel G. Swanson Jr., DGS Associates, LLC, Boulder, CO. USA, is teaching this course in PCB Filters and Multiplexers using Standard SMT Components. Explore the capabilities of well-known topologies like combline, interdigital and edge coupled as well as lesser known printed lumped element topologies. Learn EM simulation and unique optimization methods that are keys to rapid, successful design.

Available course dates

This course has no planned course dates.

If you are interested in this course, contact us at cei@cei.se

Circuit & System Design, RF & MW Design

030 PCB Filters and Multiplexers using Standard SMT Components

Location: Amersfoort, The Netherlands Date: May 18 – May 19, 2026 Duration: 2 days
Instructor: Mr. Daniel G. Swanson Jr., This course in PCB Filters and Multiplexers using Standard SMT Components, explore the capabilities of well-known topologies like combline, interdigital and edge coupled as well as lesser known printed lumped element topologies. Learn EM simulation and unique optimization methods that are keys to rapid, successful design. Read full course description including course schedule

1 735,00 
 

TECHNOLOGY FOCUS

Filters are one of the fundamental building blocks of RF and microwave systems, along with amplifiers, oscillators, mixers, and switches.

When we design a printed circuit board (PCB) based system, we rely on surface mount technology (SMT) components to realize a very compact, low cost system. Although there are now some standard filter designs available in SMT format, we often need to design a custom filter or multiplexer. These custom filter designs can be realized using standard SMT inductors and capacitors and perhaps a few printed distributed structures as well.

Successful designs have been demonstrated across a frequency range of tens of MHz up to 6GHz. This frequency range covers most of the current wireless standards and many of the military communications bands as well.

Instructor

Mr. Daniel G. Swanson Jr.

COURSE CONTENT

This course is devoted to the fundamentals of practical filter design for RF and microwave systems in a low cost, PCB environment.

The central challenge is to identify the most useful filter topologies for this construction method and frequency range. The search for a useful topology must include knowledge of each component’s spurious response. Various SMT component libraries will be examined with this in mind.

Another serious challenge to the designer is the rather limited catalogue of standard component values that are readily available. Simple techniques to overcome this limitation will be demonstrated. Although the majority of designs are fixed in frequency and bandwidth, some tunable bandpass and notch filter topologies will be presented.

We will apply EM simulation to our designs when the layout becomes highly compacted, or when non-standard connections to library components are required. EM simulation will also be used to optimize the performance of edge launched PCB connectors.

Example filter designs that cover a broad range of applications will be presented with measured data and error analysis.

The instructor will choose examples to develop based on the interests of the class.

The course material is suitable for filter designers, designers of other components, systems engineers, and technical managers.

WHO SHOULD ATTEND

The course material is suitable for filter designers, designers of other components, systems engineers, and technical managers.

Introduction to PCB Filter Design

We will start with a brief discussion of PCB construction techniques and how they affect our filter designs.

Then we will turn to basic filter design concepts. Starting with lowpass prototypes, we will touch on Chebyshev and elliptic prototypes and finding prototype element values.

Next we will turn to the concept of cross-couplings and how they introduce finite transmission zeros.

Finally, we will discuss some of the more useful filter topologies we have found for PCB based bandpass and notch filters.

  • Basic PCB Construction
  • Basic Filter Concepts
  • Chebyshev and Elliptic Prototypes
  • Cross-Coupled Filters
    • Useful Bandpass Topologies
    • Useful Bandstop Topologies

PCB Filters and Connectors

The bulk of this session will be devoted to examples of Chebyshev and elliptic function filters that have been built using standard SMT components. In most cases we will show the evolution of the design from ideal lumped prototype to final layout with comments on the design decisions that were made.

Before we can measure our filters we need a reliable transition from the PCB to our connector of choice. SMA edge launch connectors are quite popular and are available in several styles.

We will spend a few moments discussing how to optimize these connectors for higher frequency performance.

  • Lowpass Filter Examples
  • Bandpass Filter Examples
  • Notch Filter Examples
  • Diplexer Examples
  • Multiplexers
  • Edge Launch Connectors

ALL COURSE DATES FOR THE CATEGORY: ,

RF & MW Design

007 Behavioral Modeling and Digital Predistortion of RF Power Amplifiers

Location: Gothenburg, Sweden Date: June 22 - June 24, 2026 Duration: 3 days
Instructor: Dr. John Wood This 3-day course that explains nonlinear behavior of RF power amplifiers, and developing general modeling techniques to describe the nonlinearities and memory effects. Linearization of power amplifiers has become an essential requirement since the introduction of 3G wireless communications systems. With 5G about to make its mark with massive MIMO, multi-band, and millimetre-wave systems, bringing a number of new challenges for PA linearization. Come and find out about the fundamentals of these techniques and what is required for the next generation. Read full course description including course schedule

Early Bird
2 280,00 2 535,00 
Early Bird Price Ends: April 22, 2026

RF & MW Design

015 RF Design and Simulation of Wireless Systems

Location: Gothenburg, Sweden Date: June 22 - June 26, 2026 Duration: 5 days
Instructor: Dr. Rowan Gilmore Starting from the basics of Communications Theory, this course drills down into the depths of how to construct RF or Microwave Wireless Systems from elemental building blocks. Then, by simulating those circuits and systems from the bottom up, you will gain an understanding of how and why such complex systems can be designed to achieve their optimal communications performance! This 5-day course will be useful for engineers working in communications, radar, defense, or new space industries to see the “big picture” in system engineering and to help them perfect their wireless systems. Read full course description including course schedule.

Early Bird
3 540,00 3 935,00 
Early Bird Price Ends: April 22, 2026

Circuit & System Design, RF & MW Design

030 PCB Filters and Multiplexers using Standard SMT Components

Location: Amersfoort, The Netherlands Date: May 18 – May 19, 2026 Duration: 2 days
Instructor: Mr. Daniel G. Swanson Jr., This course in PCB Filters and Multiplexers using Standard SMT Components, explore the capabilities of well-known topologies like combline, interdigital and edge coupled as well as lesser known printed lumped element topologies. Learn EM simulation and unique optimization methods that are keys to rapid, successful design. Read full course description including course schedule

1 735,00 
 

Circuit & System Design, RF & MW Design

032 Planar Filters and Multiplexers

Location: Amersfoort, The Netherlands Date: May 20 – May 22, 2026 Duration: 3 days
Instructor: Mr. Daniel G. Swanson Jr. This 3-day course in Planar Filters and Multiplexers. Explore the capabilities of well-known topologies like combline, interdigital and edge coupled as well as lesser known printed lumped element topologies. Learn EM simulation and unique optimization methods that are keys to rapid, successful design. Read full course description including course schedule

2 535,00 
 

RF & MW Design

086 RF Component and System Measurements

Location: Amersfoort, The Netherlands Date: May 18 - May 22, 2026 Duration: 5 days
Instructor: Dr. Lutz Konstroffer This 5-day course will familiarize the participants with distinctive features and tools of RF and microwave techniques, such as features of resonant circuits, distortion and noise problems, reflection and matching, the S-parameters, and the handy Smith Chart tool. This course will familiarize the participants with distinctive features and tools of RF and microwave techniques, such as features of resonant circuits, distortion and noise problems, reflection and matching, the S-parameters, and the handy Smith Chart tool. Read full course description including course schedule.

3 935,00 
 

RF & MW Design

841 Metal, Plasma, and Metamaterial Antennas with Applications to Radar, Ordnance Mine Detection, and Cell Towers

Location: Amersfoort, The Netherlands Date: May 18 - May 20, 2026 Duration: 3 days
Instructor: Dr. Theodore Anderson This 3-day course will consist of industrial applications of metal antennas, plasma antennas, metamaterial antennas, and plasma metamaterial antennas. This will include industrial applications to Radar, ordnance mine detection,  co-site Interference, various antennas, and cell towers. Applications of artificial intelligence will be discussed. Specific antennas to be discussed are smart antennas, satellite antennas, and reflector antennas. reduction of co-site interference, radiation patterns, smart plasma antenna, high power plasma antennas, reflector plasma antennas, pulsing plasma antennas, and how to make a basic plasma antenna. Recommended, but stand-alone courses are: #840 Metal, Plasma, and Metamaterial Antennas with Applications to Telecommunications and 5G #842 Metal, Plasma, and Metamaterial Antennas with Applications to Plasma MRI/PET and Far-UFC Plasma Antennas to Inactivate Viruses Read full course description including course schedule.

2 535,00 
 

RF & MW Design

842 Metal, Plasma, and Metamaterial Antennas with Applications to Plasma MRI/PET and Far-UFC Plasma Antennas to Inactivate Viruses

Location: Gothenburg, Sweden Date: June 22 - June 24, 2026 Duration: 3 days
Instructor: Dr. Theodore Anderson This 3-day course will consist of industrial applications of metal antennas, plasma antennas, metamaterial antennas, and plasma metamaterial antennas. This will include industrial applications to telecommunications, 5 G, arrays, miniature, and smart antennas. Applications of artificial intelligence will be discussed. Specific antennas to be discussed are smart antennas, satellite antennas, and reflector antennas. reduction of co-site interference, radiation patterns, smart plasma antenna, high power plasma antennas, reflector plasma antennas, pulsing plasma antennas, and how to make a basic plasma antenna. Recommended, but stand-alone courses are: #840 Metal, Plasma, and Metamaterial Antennas with Applications to Telecommunications and 5G #841 Metal, Plasma, and Metamaterial Antennas with Applications to Radar, Ordnance Mine Detection, and Cell Towers Read full course description including course schedule.

Early Bird
2 280,00 2 535,00 
Early Bird Price Ends: April 22, 2026

RF & MW Design

843 Atmospheric Plasma Antennas as a Solution to the Drought, Fire, Atmospheric Rivers, and Flooding Problems

Location: Amersfoort, The Netherlands Date: May 18 - May 20, 2026 Duration: 3 days
Instructor: Dr. Theodore Anderson This 3days course covers Global warming of the atmosphere causes droughts followed by atmospheric rivers and flooding. When the temperature of the atmosphere increases the atmosphere can hold more water vapor or moisture. Because water vapor is a greenhouse gas, it heats up the atmosphere even more and it can hold even more water vapor. There is a viscous cycle from water vapor in the atmosphere and the heating of the atmosphere. The warmer the atmosphere, the more moisture it can hold. The atmosphere holds the moisture without letting it go and you have droughts. Eventually the atmosphere accumulates so much water vapor, it can’t hold it and just dumps it in the form of atmospheric rivers and flooding. Hence there is a cycle of droughts to atmospheric rivers to flooding. Atmospheric plasma antennas that are not in the transmit and receive mode, but just plasma beams launched from lasers mounted on aircraft can activate and enhance rainfall. The ions injected into the atmosphere will cause raindrop coalescence and subsequent rainfall. This will result in having moderate rainfall spaced at moderate intervals of time instead of droughts followed by atmospheric rivers and flooding. There is a type in laser that works for stopping droughts, atmospheric rivers, and flooding. Another type of laser works for dousing fires because some of the ions can ride the smoke particles. Recommended, but stand-alone courses are: #840 Metal, Plasma, and Metamaterial Antennas with Applications to Telecommunications and 5G

#841 Metal, Plasma, and Metamaterial Antennas with Applications to Radar, Ordnance Mine Detection, and Cell Towers

#842 Metal, Plasma, and Metamaterial Antennas with Applications to Plasma MRI/PET and Far-UFC Plasma Antennas to Inactivate Viruses

#844 Plasma Antennas Overview with Applications to 5G, GPS, RFID, GPR, Non-lethal Security, MRI, PET, Far-UVC, and Drought-Flooding Cycle

Read full course description including course schedule.

2 535,00 
 

RF & MW Design

844 Plasma Antennas Overview with Applications to 5G, GPS, RFID, GPR, Non-lethal Security, MRI, PET, Far-UVC, and Drought-Flooding Cycle

Location: Gothenburg, Sweden Date: June 22 - June 24, 2026 Duration: 3 days
Instructor: Dr. Theodore Anderson This 3-day course will consist of metal and plasma antenna basics and comparisons. Applications to 5G, telecommunications in general, GPS, smart plasma antennas for superior RFID, cyber security, protection against EMP and jamming, ELF plasma antennas for geophysical explorations, communicating through the hypersonic sheath, applications to medical devices such as MRI and PET, applications to Far-UVC devises operating at 222 nm to inactivate any virus that causes pandemics, applications to stop droughts, wildfires, atmospheric rivers, and flooding, plasma metamaterials, plasma waveguides, and plasma frequency selective surfaces. Recommended, but stand-alone courses are: #840 Metal, Plasma, and Metamaterial Antennas with Applications to Telecommunications and 5G #841 Metal, Plasma, and Metamaterial Antennas with Applications to Radar, Ordnance Mine Detection, and Cell Towers #842 Metal, Plasma, and Metamaterial Antennas with Applications to Plasma MRI/PET and Far-UFC Plasma Antennas to Inactivate Viruses #843 Atmospheric Plasma Antennas as a Solution to the Drought, Fire, Atmospheric Rivers, and Flooding Problems Read full course description including course schedule.

Early Bird
2 280,00 2 535,00 
Early Bird Price Ends: April 22, 2026

Would you like an inhouse course?

Contact Us!

Share your details below, and our team will be in touch as soon as possible.